Publications

Total : 202
  • Achieving Pt coating-free anodes using double-layered catalyst layer structure for polymer electrolyte membrane water electrolysis [J. Materials Chemistry A, Advance Article (2025)]
    [202] Achieving Pt coating-free anodes using double-layered catalyst layer structure for polymer electrolyte membrane water electrolysis [J. Materials Chemistry A, Advance Article (2025)]

    D. Kim, G. H. Jung, Y. H. Yun, J. Park, S. An, C. Lee, S. Lee, H. Park, S.-K. Kim, H.-S. Cho, H.-T. Kim, N. Jung, G. Doo*, M. Kim*

    https://doi.org/10.1039/D5TA01688F
  • Two-step graphene strategy enabling long-cycle stability of silicon anodes [ACS Energy Lett. 10, 2718 (2025)]
    [201] Two-step graphene strategy enabling long-cycle stability of silicon anodes [ACS Energy Lett. 10, 2718 (2025)]

    J. B. Kim, J. Baek, B. Jayaraman, S. Cha, G. S. Lee, Y. H. Yoon,G. B. Choi, C. W.-L. Cheng, J. Lim, H.-T. Kim, S. O. Kim*

    https://doi.org/10.1021/acsenergylett.5c01032
  • On the interface electron transport problem of highly active IrOx catalysts [Energy & Environmental Science, Article Advance (2025)]
    [200] On the interface electron transport problem of highly active IrOx catalysts [Energy & Environmental Science, Article Advance (2025)]

    J. Park, D. W. Lee, J. Hyun, E. T. Oh, K. Seok, G. Doo* and H.-T. Kim*

    https://doi.org/10.1039/D4EE05816J
  • Unveiling the entropic effect of electrolytes on kinetics and cyclability for practical lithium–sulfur batteries [ACS Nano, 19, 17, 16611 (2025)]
    [199] Unveiling the entropic effect of electrolytes on kinetics and cyclability for practical lithium–sulfur batteries [ACS Nano, 19, 17, 16611 (2025)]

    D. Son, J. Kim, W. Zhao, H. Cho, D. G. Lee, J. Son, L. Xu, C.-Y. Park, J. Lee, J. H. Lee, S. Han, H.-T. Kim, T. K. Lee*, J. Lee*

    https://doi.org/10.1021/acsnano.5c00412
  • Stress-tolerant sulfur cathode with a super-stretchable polymer coating via initiated chemical vapor deposition [Communications Materials, 6, 82 (2025)]
    [198] Stress-tolerant sulfur cathode with a super-stretchable polymer coating via initiated chemical vapor deposition [Communications Materials, 6, 82 (2025)]

    J. Lee, M. Oh, S. Kim, I. J. Kim, K. Jung, M. H. Ryu, G. Doo, J. Jung, S. G. Lim, H.-T. Kim*

    https://doi.org/10.1038/s43246-025-00805-3
  • Miniature Li+ solvation by symmetric molecular design for practical and safe Li-metal batteries [Nature Energy, 10, 502 (2025)]
    [197] Miniature Li+ solvation by symmetric molecular design for practical and safe Li-metal batteries [Nature Energy, 10, 502 (2025)]

    J. Jang, C. Wang, G. Kang, C. Han, J. Han, J.-S. Shin, S. Ko, G. Kim, J. Baek, H.-T. Kim, H. Lee, C. B. Park, D.-H. Seo, Y. Li* & J. Kang*

    https://doi.org/10.1038/s41560-025-01733-9
  • Concurrent electrode–electrolyte interfaces engineering via nano-Si3N4 additive for high-rate, high-voltage lithium metal batteries [Energy & Environmental Science, 18, 3148 (2025)]
    [196] Concurrent electrode–electrolyte interfaces engineering via nano-Si3N4 additive for high-rate, high-voltage lithium metal batteries [Energy & Environmental Science, 18, 3148 (2025)]

    J. Kim, D. G Lee, J. H. Lee, S. Kim, C.-Y. Park, J. Y. Lee, H. Kwon, H. Cho, J. Lee, D. Son, H.-T. Kim, N.-S. Cho*, T. K. Lee* and J. Lee*

    https://doi.org/10.1039/D4EE03862B
  • Solvation structure engineering via inorganic–organic composite layer for corrosion-resistant lithium metal anodes in high-concentration electrolyte [Advanced Energy Materials, 15, 2403944 (2025)]
    [195] Solvation structure engineering via inorganic–organic composite layer for corrosion-resistant lithium metal anodes in high-concentration electrolyte [Advanced Energy Materials, 15, 2403944 (2025)]

    Youngil Roh, Hyeokjin Kwon, Jaewon Baek, Changhoon Park, Seongyeong Kim, Kahee Hwang, A Reum Ha, Seongmin Ha, Jongchan Song, Hee-Tak Kim*

    https://doi.org/10.1002/aenm.202403944
  • Moderately solvating electrolyte with fluorinated cosolvents for lean-electrolyte Li–S Batteries [Advanced Energy Materials, 15, 2403828 (2025)]
    [194] Moderately solvating electrolyte with fluorinated cosolvents for lean-electrolyte Li–S Batteries [Advanced Energy Materials, 15, 2403828 (2025)]

    Ilju Kim, Sejin Kim, Hannah Cho, Jinkwan Jung, Hyeokjin Kwon, Dongwoo Kim, Yewon Shin, Hee-Tak Kim*

    https://doi.org/10.1002/aenm.202403828
  • Insight into the impact of electrolyte on passivation of Lithium–Sulfur cathodes [Advanced Materials Interfaces, 12, 2400632 (2025)]
    [193] Insight into the impact of electrolyte on passivation of Lithium–Sulfur cathodes [Advanced Materials Interfaces, 12, 2400632 (2025)]

    Walter Cistjakov, Johanna Hoppe, Jinkwan Jung, Fridolin Röder, Hee‐Tak Kim, Ulrike Krewer*

    https://doi.org/10.1002/admi.202400632
  • Boosting the kinetics of bromine cathode in Zn–Br flow battery by enhancing the electrode adsorption of the droplet of bromine sequestration agent/polybromides complex [Journal of Power Sources, 620, 235219 (2024)]
    [192] Boosting the kinetics of bromine cathode in Zn–Br flow battery by enhancing the electrode adsorption of the droplet of bromine sequestration agent/polybromides complex [Journal of Power Sources, 620, 235219 (2024)]

    Yong-Hee Lee, Kyungjae Shin, Jaewon Baek, Hee-Tak Kim*

    https://doi.org/10.1016/j.jpowsour.2024.235219
  • Improving anion exchange membrane fuel cell performance via enhanced ionomer–carbon interaction in cathode catalyst layers with carbon-supported Pt catalyst using a pyrene carboxyl acid coating [Applied Catalysis B, 357, 124321 (2024)]
    [191] Improving anion exchange membrane fuel cell performance via enhanced ionomer–carbon interaction in cathode catalyst layers with carbon-supported Pt catalyst using a pyrene carboxyl acid coating [Applied Catalysis B, 357, 124321 (2024)]

    J. Hyun, H. Lee, G. Doo, D. W. Lee, E. Oh, J, Park, K. Seok, J. H. Kim, C. Bae, H.-T. Kim*

    https://doi.org/10.1016/j.apcatb.2024.124322
  • Addressing electrode passivation in lithium–sulfur batteries by site‐selective morphology‐controlled Li2S formation [EcoMat, 6, e12438 (2024)]
    [190] Addressing electrode passivation in lithium–sulfur batteries by site‐selective morphology‐controlled Li2S formation [EcoMat, 6, e12438 (2024)]

    Ilju Kim, Jinkwan Jung, Sejin Kim, Hannah Cho, Hyunwon Chu, Wonhee Jo, Dongjae Shin, Hyeokjin Kwon, Hee‐Tak Kim*

    https://doi.org/10.1002/eom2.12483
  • Designing a schottky barrier-free interface for a highly conductive anode in proton exchange membrane water electrolysis [ACS nano, 18, 23331 (2024)]
    [189] Designing a schottky barrier-free interface for a highly conductive anode in proton exchange membrane water electrolysis [ACS nano, 18, 23331 (2024)]

    Gisu Doo, Hanmin Bae, Jeesoo Park, Jonghyun Hyun, Ilju Kim, Dong Wook Lee, Euntaek Oh, Hee-Tak Kim*

    https://pubs.acs.org/doi/10.1021/acsnano.4c06373
  • Versatile Zn hosting Lewis-basic interfacial layer for high-performant Zn reversibility in aqueous Zn ion battery [Energy Storage Materials, 71, 103580 (2024)]
    [188] Versatile Zn hosting Lewis-basic interfacial layer for high-performant Zn reversibility in aqueous Zn ion battery [Energy Storage Materials, 71, 103580 (2024)]

    Jiyun Heo, Youngil Roh, Kyungjae Shin, Changmin Lee, Chunsheng Wang*, Hee-Tak Kim*

    https://doi.org/10.1016/j.ensm.2024.103580
  • Postmortem 7Li NMR analysis for assessing the reversibility of lithium metal electrodes in lithium metal batteries [Journal of Energy Chemistry, 94, 430 (2024)]
    [187] Postmortem 7Li NMR analysis for assessing the reversibility of lithium metal electrodes in lithium metal batteries [Journal of Energy Chemistry, 94, 430 (2024)]

    Jaewon Baek, Sunha Kim, Hee-Tak Kim*, Oc Hee Han*

    https://doi.org/10.1016/j.jechem.2024.02.063
  • Preferential Lithium Plating in the Interfacial Void Region in All-Solid-State Batteries via Pressure Gradient-Driven Lithium-Ion Flux [ACS Energy Letters, 9, 1035 (2024)]
    [186] Preferential Lithium Plating in the Interfacial Void Region in All-Solid-State Batteries via Pressure Gradient-Driven Lithium-Ion Flux [ACS Energy Letters, 9, 1035 (2024)]

    Dongjae Shin, Jinkwan Jung, Youngil Roh, Changhoon Park, Il Ju Kim, Hyeokjin Kwon, Jaewon Baek, Wonsik Oh, Junhyuk Kim, Seoyoung Jeong, Jaemin Hwang, Yesom Kim, Duk Hyoung Yoon, Hee-Tak Kim*

    https://pubs.acs.org/doi/10.1021/acsenergylett.4c00297
  • Potential-dependent ionomer rearrangement on the Pt surface in polymer electrolyte membrane fuel cells [ACS Applied Materials & Interfaces, 16, 4637 (2024)]
    [185] Potential-dependent ionomer rearrangement on the Pt surface in polymer electrolyte membrane fuel cells [ACS Applied Materials & Interfaces, 16, 4637 (2024)]

    Dong Wook Lee, Jonghyun Hyun, Euntaek Oh, Kyunghwa Seok, Hanmin Bae, Jeesoo Park, Hee-Tak Kim*

    https://pubs.acs.org/doi/10.1021/acsami.3c15827
  • Functionalized metal–organic framework modified membranes with ultralong cyclability and superior capacity for zinc/bromine flowless batteries [Journal of Materials Chemistry A, 12, 13970 (2024)]
    [184] Functionalized metal–organic framework modified membranes with ultralong cyclability and superior capacity for zinc/bromine flowless batteries [Journal of Materials Chemistry A, 12, 13970 (2024)]

    Dabin Han, Kyungjae Shin, Hee-Tak Kim, Sangaraju Shanmugam*

    https://doi.org/10.1039/d4ta01005a
  • High-entropy polymer electrolytes derived from multivalent polymeric ligands for solid-state lithium metal batteries with accelerated Li+ transport [Nano Letters, 24, 6850 (2024)]
    [183] High-entropy polymer electrolytes derived from multivalent polymeric ligands for solid-state lithium metal batteries with accelerated Li+ transport [Nano Letters, 24, 6850 (2024)]

    Fangmin Ye*, Zhixin Wang, Mengcheng Li, Jing Zhang, Dong Wang, Meinan Liu, Aiping Liu*, Hongzhen Lin, Hee-Tak Kim*, Jian Wang*

    https://pubs.acs.org/doi/10.1021/acs.nanolett.4c00154